Let's analyze the situation:
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The teacher is comparing the total cost of the trip to Orchard A and Orchard B.
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For Orchard A, the total cost is given by the equation: \[ \text{Cost} = 9(n + 3) \] where \( n \) is the number of students and 3 chaperones are required.
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For Orchard B, the total cost is: \[ \text{Cost} = 10(n + 1) \] where 1 chaperone is required.
Now, the two statements made by the teacher involve:
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The equation \( 9(n + 3) = 10(n + 1) \):
- This equation is true if we want to find the point at which the total costs of both orchards are equal.
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The inequality \( 9(n + 3) < 10(n + 1) \):
- This inequality suggests that the teacher is looking for conditions under which Orchard A is cheaper than Orchard B.
Both statements are mathematically sound and represent valid comparisons of costs based on the requirements for each orchard.
So to fill in the blanks:
- The equation \( 9(n + 3) = 10(n + 1) \) is True because it represents when the costs are equal.
- The inequality \( 9(n + 3) < 10(n + 1) \) is also True because it represents when Orchard A is cheaper than Orchard B.
Thus, the answer is: True, True